Neural Networks in Optimizing the Performance of the Elliptical-Plasmonic Sensor

In this work, we report the capability of a PCF-SPR sensor with an elliptical core, which has high sensitivity, and it is explained using a machine learning approach. The sensor component consists of fused silica as the background material, TiO2 as the adhesive material between the dielectric material and the plasmonic material, and Au was chosen as plasmonic material with optimal thicknesses of 35 nm for TiO2and 45 nm for Au. Numerical results show that the sensor component has a high sensitivity of 24,000 nm/RIU for four modes that have consistent shifts, including x-polarized, x-odd, y-polarized, and y-odd. Meanwhile, AS maximums were found of -91.82 1/RIU for x-polarized, -91.88 1/RIU for y-polarized, -90.98 1/RIU for x-odd, and -89.276 1/RIU for y-odd respectively, on the refractive index of the analyte of 1,365 RIU. The ML algorithm was used to optimize the sensor parameters, and it was found that the algorithm had a very low MSE of 0.00083; this result is better than the previous report work. Doi: 10.28991/ESJ-2024-08-05-07 Full Text: PDF

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Publication Details

Journal
Emerging Science Journal
Published
2024-10-01
DOI
https://doi.org/10.28991/esj-2024-08-05-07
Citations
9
Primary Topic
Plasmonic and Surface Plasmon Research
Type
article
Field-Weighted Citation Impact
1.66
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article

Neural Networks in Optimizing the Performance of the Elliptical-Plasmonic Sensor

Khaikal Ramadhan, Arip Marwan, Andi M. N. F. Syamsul, Beny Agustirandi et al.
9 citations
Emerging Science Journal
Plasmonic and Surface Plasmon Research
1.66
article

Neural Networks in Optimizing the Performance of the Elliptical-Plasmonic Sensor

Khaikal Ramadhan, Arip Marwan, Andi M. N. F. Syamsul, Beny Agustirandi, Mhd Yasir, Hadi Christian
article en
9 citations

Abstract

In this work, we report the capability of a PCF-SPR sensor with an elliptical core, which has high sensitivity, and it is explained using a machine learning approach. The sensor component consists of fused silica as the background material, TiO2 as the adhesive material between the dielectric material and the plasmonic material, and Au was chosen as plasmonic material with optimal thicknesses of 35 nm for TiO2and 45 nm for Au. Numerical results show that the sensor component has a high sensitivity of 24,000 nm/RIU for four modes that have consistent shifts, including x-polarized, x-odd, y-polarized, and y-odd. Meanwhile, AS maximums were found of -91.82 1/RIU for x-polarized, -91.88 1/RIU for y-polarized, -90.98 1/RIU for x-odd, and -89.276 1/RIU for y-odd respectively, on the refractive index of the analyte of 1,365 RIU. The ML algorithm was used to optimize the sensor parameters, and it was found that the algorithm had a very low MSE of 0.00083; this result is better than the previous report work. Doi: 10.28991/ESJ-2024-08-05-07 Full Text: PDF

Emerging Science JournalVol. 8(5)
Bandung Institute of Technology (ID), Riau University (ID)
Openalex Percentile: Top 17%
Plasmonic and Surface Plasmon Research
1.66
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Neural Networks in Optimizing the Performance of the Elliptical-Plasmonic Sensor — Khaikal Ramadhan, Arip Marwan, et al. · Emerging Science Journal (2024) | TGRS Research Map | TGRS